4.3BSD-Reno/src/sys/hpdev/if_le.c
/*
* Copyright (c) 1982, 1990 The Regents of the University of California.
* All rights reserved.
*
* Redistribution is only permitted until one year after the first shipment
* of 4.4BSD by the Regents. Otherwise, redistribution and use in source and
* binary forms are permitted provided that: (1) source distributions retain
* this entire copyright notice and comment, and (2) distributions including
* binaries display the following acknowledgement: This product includes
* software developed by the University of California, Berkeley and its
* contributors'' in the documentation or other materials provided with the
* distribution and in all advertising materials mentioning features or use
* of this software. Neither the name of the University nor the names of
* its contributors may be used to endorse or promote products derived from
* this software without specific prior written permission.
* THIS SOFTWARE IS PROVIDED AS IS'' AND WITHOUT ANY EXPRESS OR IMPLIED
* WARRANTIES, INCLUDING, WITHOUT LIMITATION, THE IMPLIED WARRANTIES OF
* MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE.
*
* @(#)if_le.c 7.1 (Berkeley) 5/8/90
*/
#include "le.h"
#if NLE > 0
/*
* AMD 7990 LANCE
*
* This driver will generate and accept tailer encapsulated packets even
* though it buys us nothing. The motivation was to avoid incompatibilities
* with VAXen, SUNs, and others that handle and benefit from them.
* This reasoning is dubious.
*/
#include "param.h"
#include "systm.h"
#include "mbuf.h"
#include "buf.h"
#include "protosw.h"
#include "socket.h"
#include "syslog.h"
#include "ioctl.h"
#include "errno.h"
#include "../net/if.h"
#include "../net/netisr.h"
#include "../net/route.h"
#ifdef INET
#include "../netinet/in.h"
#include "../netinet/in_systm.h"
#include "../netinet/in_var.h"
#include "../netinet/ip.h"
#include "../netinet/if_ether.h"
#endif
#ifdef NS
#include "../netns/ns.h"
#include "../netns/ns_if.h"
#endif
#ifdef RMP
#include "../netrmp/rmp.h"
#include "../netrmp/rmp_var.h"
#endif
#include "machine/cpu.h"
#include "machine/isr.h"
#include "machine/mtpr.h"
#include "device.h"
#include "if_lereg.h"
/* offsets for: ID, REGS, MEM, NVRAM */
int lestd[] = { 0, 0x4000, 0x8000, 0xC008 };
int leattach();
struct driver ledriver = {
leattach, "le",
};
struct isr le_isr[NLE];
int ledebug = 0; /* console error messages */
int leintr(), leinit(), leioctl(), lestart(), ether_output();
struct mbuf *leget();
extern struct ifnet loif;
/*
* Ethernet software status per interface.
*
* Each interface is referenced by a network interface structure,
* le_if, which the routing code uses to locate the interface.
* This structure contains the output queue for the interface, its address, ...
*/
struct le_softc {
struct arpcom sc_ac; /* common Ethernet structures */
#define sc_if sc_ac.ac_if /* network-visible interface */
#define sc_addr sc_ac.ac_enaddr /* hardware Ethernet address */
struct lereg0 *sc_r0; /* DIO registers */
struct lereg1 *sc_r1; /* LANCE registers */
struct lereg2 *sc_r2; /* dual-port RAM */
int sc_rmd; /* predicted next rmd to process */
int sc_runt;
int sc_jab;
int sc_merr;
int sc_babl;
int sc_cerr;
int sc_miss;
int sc_xint;
int sc_xown;
int sc_uflo;
int sc_rxlen;
int sc_rxoff;
int sc_txoff;
int sc_busy;
} le_softc[NLE];
/* access LANCE registers */
#define LERDWR(cntl, src, dst) \
do { \
(dst) = (src); \
} while (((cntl)->ler0_status & LE_ACK) == 0);
/*
* Interface exists: make available by filling in network interface
* record. System will initialize the interface when it is ready
* to accept packets.
*/
leattach(hd)
struct hp_device *hd;
{
register struct lereg0 *ler0;
register struct lereg2 *ler2;
struct lereg2 *lemem = 0;
struct le_softc *le = &le_softc[hd->hp_unit];
struct ifnet *ifp = &le->sc_if;
char *cp;
int i;
ler0 = le->sc_r0 = (struct lereg0 *)(lestd[0] + (int)hd->hp_addr);
le->sc_r1 = (struct lereg1 *)(lestd[1] + (int)hd->hp_addr);
ler2 = le->sc_r2 = (struct lereg2 *)(lestd[2] + (int)hd->hp_addr);
if (ler0->ler0_id != LEID)
return(0);
le_isr[hd->hp_unit].isr_intr = leintr;
hd->hp_ipl = le_isr[hd->hp_unit].isr_ipl = LE_IPL(ler0->ler0_status);
le_isr[hd->hp_unit].isr_arg = hd->hp_unit;
ler0->ler0_id = 0xFF;
DELAY(100);
/*
* Read the ethernet address off the board, one nibble at a time.
*/
cp = (char *)(lestd[3] + (int)hd->hp_addr);
for (i = 0; i < sizeof(le->sc_addr); i++) {
le->sc_addr[i] = (*++cp & 0xF) << 4;
cp++;
le->sc_addr[i] |= *++cp & 0xF;
cp++;
}
printf("le%d: hardware address %s\n", hd->hp_unit,
ether_sprintf(le->sc_addr));
/*
* Setup for transmit/receive
*/
ler2->ler2_mode = LE_MODE;
ler2->ler2_padr[0] = le->sc_addr[1];
ler2->ler2_padr[1] = le->sc_addr[0];
ler2->ler2_padr[2] = le->sc_addr[3];
ler2->ler2_padr[3] = le->sc_addr[2];
ler2->ler2_padr[4] = le->sc_addr[5];
ler2->ler2_padr[5] = le->sc_addr[4];
#ifdef RMP
/*
* Set up logical addr filter to accept multicast 9:0:9:0:0:4
* This should be an ioctl() to the driver. (XXX)
*/
ler2->ler2_ladrf0 = 0x00100000;
ler2->ler2_ladrf1 = 0x0;
#else
ler2->ler2_ladrf0 = 0;
ler2->ler2_ladrf1 = 0;
#endif
ler2->ler2_rlen = LE_RLEN;
ler2->ler2_rdra = (int)lemem->ler2_rmd;
ler2->ler2_tlen = LE_TLEN;
ler2->ler2_tdra = (int)lemem->ler2_tmd;
isrlink(&le_isr[hd->hp_unit]);
ler0->ler0_status = LE_IE;
ifp->if_unit = hd->hp_unit;
ifp->if_name = "le";
ifp->if_mtu = ETHERMTU;
ifp->if_init = leinit;
ifp->if_ioctl = leioctl;
ifp->if_output = ether_output;
ifp->if_start = lestart;
ifp->if_flags = IFF_BROADCAST | IFF_SIMPLEX;
if_attach(ifp);
return (1);
}
ledrinit(ler2)
register struct lereg2 *ler2;
{
register struct lereg2 *lemem = 0;
register int i;
for (i = 0; i < LERBUF; i++) {
ler2->ler2_rmd[i].rmd0 = (int)lemem->ler2_rbuf[i];
ler2->ler2_rmd[i].rmd1 = LE_OWN;
ler2->ler2_rmd[i].rmd2 = -LEMTU;
ler2->ler2_rmd[i].rmd3 = 0;
}
for (i = 0; i < LETBUF; i++) {
ler2->ler2_tmd[i].tmd0 = (int)lemem->ler2_tbuf[i];
ler2->ler2_tmd[i].tmd1 = 0;
ler2->ler2_tmd[i].tmd2 = 0;
ler2->ler2_tmd[i].tmd3 = 0;
}
}
lereset(unit)
register int unit;
{
register struct le_softc *le = &le_softc[unit];
register struct lereg0 *ler0 = le->sc_r0;
register struct lereg1 *ler1 = le->sc_r1;
register struct lereg2 *lemem = 0;
register int timo = 100000;
register int stat;
#ifdef lint
stat = unit;
#endif
LERDWR(ler0, LE_CSR0, ler1->ler1_rap);
LERDWR(ler0, LE_STOP, ler1->ler1_rdp);
ledrinit(le->sc_r2);
le->sc_rmd = 0;
LERDWR(ler0, LE_CSR1, ler1->ler1_rap);
LERDWR(ler0, (int)&lemem->ler2_mode, ler1->ler1_rdp);
LERDWR(ler0, LE_CSR2, ler1->ler1_rap);
LERDWR(ler0, 0, ler1->ler1_rdp);
LERDWR(ler0, LE_CSR0, ler1->ler1_rap);
LERDWR(ler0, LE_INIT, ler1->ler1_rdp);
do {
if (--timo == 0) {
printf("le%d: init timeout, stat = 0x%x\n",
unit, stat);
break;
}
LERDWR(ler0, ler1->ler1_rdp, stat);
} while ((stat & LE_IDON) == 0);
LERDWR(ler0, LE_STOP, ler1->ler1_rdp);
LERDWR(ler0, LE_CSR3, ler1->ler1_rap);
LERDWR(ler0, LE_BSWP, ler1->ler1_rdp);
LERDWR(ler0, LE_CSR0, ler1->ler1_rap);
LERDWR(ler0, LE_STRT | LE_INEA, ler1->ler1_rdp);
le->sc_if.if_flags &= ~IFF_OACTIVE;
}
/*
* Initialization of interface
*/
leinit(unit)
int unit;
{
struct le_softc *le = &le_softc[unit];
register struct ifnet *ifp = &le->sc_if;
int s;
/* not yet, if address still unknown */
if (ifp->if_addrlist == (struct ifaddr *)0)
return;
if ((ifp->if_flags & IFF_RUNNING) == 0) {
s = splimp();
ifp->if_flags |= IFF_RUNNING;
lereset(unit);
(void) lestart(ifp);
splx(s);
}
}
/*
* Start output on interface. Get another datagram to send
* off of the interface queue, and copy it to the interface
* before starting the output.
*/
lestart(ifp)
struct ifnet *ifp;
{
register struct le_softc *le = &le_softc[ifp->if_unit];
register struct letmd *tmd;
register struct mbuf *m;
int len;
if ((le->sc_if.if_flags & IFF_RUNNING) == 0)
return (0);
IF_DEQUEUE(&le->sc_if.if_snd, m);
if (m == 0)
return (0);
len = leput(le->sc_r2->ler2_tbuf[0], m);
tmd = le->sc_r2->ler2_tmd;
tmd->tmd3 = 0;
tmd->tmd2 = -len;
tmd->tmd1 = LE_OWN | LE_STP | LE_ENP;
le->sc_if.if_flags |= IFF_OACTIVE;
return (0);
}
leintr(unit)
register int unit;
{
register struct le_softc *le = &le_softc[unit];
register struct lereg0 *ler0 = le->sc_r0;
register struct lereg1 *ler1;
register int stat;
if ((ler0->ler0_status & LE_IR) == 0)
return(0);
if (ler0->ler0_status & LE_JAB) {
le->sc_jab++;
lereset(unit);
return(1);
}
ler1 = le->sc_r1;
LERDWR(ler0, ler1->ler1_rdp, stat);
if (stat & LE_SERR) {
leerror(unit, stat);
if (stat & LE_MERR) {
le->sc_merr++;
lereset(unit);
return(1);
}
if (stat & LE_BABL)
le->sc_babl++;
if (stat & LE_CERR)
le->sc_cerr++;
if (stat & LE_MISS)
le->sc_miss++;
LERDWR(ler0, LE_BABL|LE_CERR|LE_MISS|LE_INEA, ler1->ler1_rdp);
}
if ((stat & LE_RXON) == 0) {
le->sc_rxoff++;
lereset(unit);
return(1);
}
if ((stat & LE_TXON) == 0) {
le->sc_txoff++;
lereset(unit);
return(1);
}
if (stat & LE_RINT) {
/* interrupt is cleared in lerint */
lerint(unit);
}
if (stat & LE_TINT) {
LERDWR(ler0, LE_TINT|LE_INEA, ler1->ler1_rdp);
lexint(unit);
}
return(1);
}
/*
* Ethernet interface transmitter interrupt.
* Start another output if more data to send.
*/
lexint(unit)
register int unit;
{
register struct le_softc *le = &le_softc[unit];
register struct letmd *tmd = le->sc_r2->ler2_tmd;
if ((le->sc_if.if_flags & IFF_OACTIVE) == 0) {
le->sc_xint++;
return;
}
if (tmd->tmd1 & LE_OWN) {
le->sc_xown++;
return;
}
if (tmd->tmd1 & LE_ERR) {
err:
lexerror(unit);
le->sc_if.if_oerrors++;
if (tmd->tmd3 & (LE_TBUFF|LE_UFLO)) {
le->sc_uflo++;
lereset(unit);
}
else if (tmd->tmd3 & LE_LCOL)
le->sc_if.if_collisions++;
else if (tmd->tmd3 & LE_RTRY)
le->sc_if.if_collisions += 16;
}
else if (tmd->tmd3 & LE_TBUFF)
/* XXX documentation says BUFF not included in ERR */
goto err;
else if (tmd->tmd1 & LE_ONE)
le->sc_if.if_collisions++;
else if (tmd->tmd1 & LE_MORE)
/* what is the real number? */
le->sc_if.if_collisions += 2;
else
le->sc_if.if_opackets++;
le->sc_if.if_flags &= ~IFF_OACTIVE;
(void) lestart(&le->sc_if);
}
#define LENEXTRMP \
if (++bix == LERBUF) bix = 0, rmd = le->sc_r2->ler2_rmd; else ++rmd
/*
* Ethernet interface receiver interrupt.
* If input error just drop packet.
* Decapsulate packet based on type and pass to type specific
* higher-level input routine.
*/
lerint(unit)
int unit;
{
register struct le_softc *le = &le_softc[unit];
register int bix = le->sc_rmd;
register struct lermd *rmd = &le->sc_r2->ler2_rmd[bix];
/*
* Out of sync with hardware, should never happen?
*/
if (rmd->rmd1 & LE_OWN) {
LERDWR(le->sc_r0, LE_RINT|LE_INEA, le->sc_r1->ler1_rdp);
return;
}
/*
* Process all buffers with valid data
*/
while ((rmd->rmd1 & LE_OWN) == 0) {
int len = rmd->rmd3;
/* Clear interrupt to avoid race condition */
LERDWR(le->sc_r0, LE_RINT|LE_INEA, le->sc_r1->ler1_rdp);
if (rmd->rmd1 & LE_ERR) {
le->sc_rmd = bix;
lererror(unit, "bad packet");
le->sc_if.if_ierrors++;
} else if ((rmd->rmd1 & (LE_STP|LE_ENP)) != (LE_STP|LE_ENP)) {
/*
* Find the end of the packet so we can see how long
* it was. We still throw it away.
*/
do {
LERDWR(le->sc_r0, LE_RINT|LE_INEA,
le->sc_r1->ler1_rdp);
rmd->rmd3 = 0;
rmd->rmd1 = LE_OWN;
LENEXTRMP;
} while (!(rmd->rmd1 & (LE_OWN|LE_ERR|LE_STP|LE_ENP)));
le->sc_rmd = bix;
lererror(unit, "chained buffer");
le->sc_rxlen++;
/*
* If search terminated without successful completion
* we reset the hardware (conservative).
*/
if ((rmd->rmd1 & (LE_OWN|LE_ERR|LE_STP|LE_ENP)) !=
LE_ENP) {
lereset(unit);
return;
}
} else
leread(unit, le->sc_r2->ler2_rbuf[bix], len);
rmd->rmd3 = 0;
rmd->rmd1 = LE_OWN;
LENEXTRMP;
}
le->sc_rmd = bix;
}
leread(unit, buf, len)
int unit;
char *buf;
int len;
{
register struct le_softc *le = &le_softc[unit];
register struct ether_header *et;
struct mbuf *m;
int off, resid;
le->sc_if.if_ipackets++;
et = (struct ether_header *)buf;
et->ether_type = ntohs((u_short)et->ether_type);
/* adjust input length to account for header and CRC */
len = len - sizeof(struct ether_header) - 4;
#ifdef RMP
/* (XXX)
*
* If Ethernet Type field is < MaxPacketSize, we probably have
* a IEEE802 packet here. Make sure that the size is at least
* that of the HP LLC. Also do sanity checks on length of LLC
* (old Ethernet Type field) and packet length.
*
* Provided the above checks succeed, change `len' to reflect
* the length of the LLC (i.e. et->ether_type) and change the
* type field to ETHERTYPE_IEEE so we can switch() on it later.
* Yes, this is a hack and will eventually be done "right".
*/
if (et->ether_type <= IEEE802LEN_MAX && len >= sizeof(struct hp_llc) &&
len >= et->ether_type && len >= IEEE802LEN_MIN) {
len = et->ether_type;
et->ether_type = ETHERTYPE_IEEE; /* hack! */
}
#endif
#define ledataaddr(et, off, type) ((type)(((caddr_t)((et)+1)+(off))))
if (et->ether_type >= ETHERTYPE_TRAIL &&
et->ether_type < ETHERTYPE_TRAIL+ETHERTYPE_NTRAILER) {
off = (et->ether_type - ETHERTYPE_TRAIL) * 512;
if (off >= ETHERMTU)
return; /* sanity */
et->ether_type = ntohs(*ledataaddr(et, off, u_short *));
resid = ntohs(*(ledataaddr(et, off+2, u_short *)));
if (off + resid > len)
return; /* sanity */
len = off + resid;
} else
off = 0;
if (len <= 0) {
if (ledebug)
log(LOG_WARNING,
"le%d: ierror(runt packet): from %s: len=%d\n",
unit, ether_sprintf(et->ether_shost), len);
le->sc_runt++;
le->sc_if.if_ierrors++;
return;
}
/*
* Pull packet off interface. Off is nonzero if packet
* has trailing header; leget will then force this header
* information to be at the front, but we still have to drop
* the type and length which are at the front of any trailer data.
*/
m = leget(buf, len, off, &le->sc_if);
if (m == 0)
return;
#ifdef RMP
/*
* (XXX)
* This needs to be integrated with the ISO stuff in ether_input()
*/
if (et->ether_type == ETHERTYPE_IEEE) {
/*
* Snag the Logical Link Control header (IEEE 802.2).
*/
struct hp_llc *llc = &(mtod(m, struct rmp_packet *)->hp_llc);
/*
* If the DSAP (and HP's extended DXSAP) indicate this
* is an RMP packet, hand it to the raw input routine.
*/
if (llc->dsap == IEEE_DSAP_HP && llc->dxsap == HPEXT_DXSAP) {
static struct sockproto rmp_sp = {AF_RMP,RMPPROTO_BOOT};
static struct sockaddr rmp_src = {AF_RMP};
static struct sockaddr rmp_dst = {AF_RMP};
bcopy(et->ether_shost, rmp_src.sa_data,
sizeof(et->ether_shost));
bcopy(et->ether_dhost, rmp_dst.sa_data,
sizeof(et->ether_dhost));
raw_input(m, &rmp_sp, &rmp_src, &rmp_dst);
return;
}
}
#endif
ether_input(&le->sc_if, et, m);
}
/*
* Routine to copy from mbuf chain to transmit
* buffer in board local memory.
*/
leput(lebuf, m)
register char *lebuf;
register struct mbuf *m;
{
register struct mbuf *mp;
register int len, tlen = 0;
for (mp = m; mp; mp = mp->m_next) {
len = mp->m_len;
if (len == 0)
continue;
tlen += len;
bcopy(mtod(mp, char *), lebuf, len);
lebuf += len;
}
m_freem(m);
if (tlen < LEMINSIZE) {
bzero(lebuf, LEMINSIZE - tlen);
tlen = LEMINSIZE;
}
return(tlen);
}
/*
* Routine to copy from board local memory into mbufs.
*/
struct mbuf *
leget(lebuf, totlen, off0, ifp)
char *lebuf;
int totlen, off0;
struct ifnet *ifp;
{
register struct mbuf *m;
struct mbuf *top = 0, **mp = ⊤
register int off = off0, len;
register char *cp;
char *epkt;
lebuf += sizeof (struct ether_header);
cp = lebuf;
epkt = cp + totlen;
if (off) {
cp += off + 2 * sizeof(u_short);
totlen -= 2 * sizeof(u_short);
}
MGETHDR(m, M_DONTWAIT, MT_DATA);
if (m == 0)
return (0);
m->m_pkthdr.rcvif = ifp;
m->m_pkthdr.len = totlen;
m->m_len = MHLEN;
while (totlen > 0) {
if (top) {
MGET(m, M_DONTWAIT, MT_DATA);
if (m == 0) {
m_freem(top);
return (0);
}
m->m_len = MLEN;
}
len = min(totlen, epkt - cp);
if (len >= MINCLSIZE) {
MCLGET(m, M_DONTWAIT);
if (m->m_flags & M_EXT)
m->m_len = len = min(len, MCLBYTES);
else
len = m->m_len;
} else {
/*
* Place initial small packet/header at end of mbuf.
*/
if (len < m->m_len) {
if (top == 0 && len + max_linkhdr <= m->m_len)
m->m_data += max_linkhdr;
m->m_len = len;
} else
len = m->m_len;
}
bcopy(cp, mtod(m, caddr_t), (unsigned)len);
cp += len;
*mp = m;
mp = &m->m_next;
totlen -= len;
if (cp == epkt)
cp = lebuf;
}
return (top);
}
/*
* Process an ioctl request.
*/
leioctl(ifp, cmd, data)
register struct ifnet *ifp;
int cmd;
caddr_t data;
{
register struct ifaddr *ifa = (struct ifaddr *)data;
struct le_softc *le = &le_softc[ifp->if_unit];
struct lereg1 *ler1 = le->sc_r1;
int s = splimp(), error = 0;
switch (cmd) {
case SIOCSIFADDR:
ifp->if_flags |= IFF_UP;
switch (ifa->ifa_addr->sa_family) {
#ifdef INET
case AF_INET:
leinit(ifp->if_unit); /* before arpwhohas */
((struct arpcom *)ifp)->ac_ipaddr =
IA_SIN(ifa)->sin_addr;
arpwhohas((struct arpcom *)ifp, &IA_SIN(ifa)->sin_addr);
break;
#endif
#ifdef NS
case AF_NS:
{
register struct ns_addr *ina = &(IA_SNS(ifa)->sns_addr);
if (ns_nullhost(*ina))
ina->x_host = *(union ns_host *)(le->sc_addr);
else {
/*
* The manual says we can't change the address
* while the receiver is armed,
* so reset everything
*/
ifp->if_flags &= ~IFF_RUNNING;
bcopy((caddr_t)ina->x_host.c_host,
(caddr_t)le->sc_addr, sizeof(le->sc_addr));
}
leinit(ifp->if_unit); /* does le_setaddr() */
break;
}
#endif
default:
leinit(ifp->if_unit);
break;
}
break;
case SIOCSIFFLAGS:
if ((ifp->if_flags & IFF_UP) == 0 &&
ifp->if_flags & IFF_RUNNING) {
LERDWR(le->sc_r0, LE_STOP, ler1->ler1_rdp);
ifp->if_flags &= ~IFF_RUNNING;
} else if (ifp->if_flags & IFF_UP &&
(ifp->if_flags & IFF_RUNNING) == 0)
leinit(ifp->if_unit);
break;
default:
error = EINVAL;
}
splx(s);
return (error);
}
leerror(unit, stat)
int unit;
int stat;
{
if (!ledebug)
return;
/*
* Not all transceivers implement heartbeat
* so we only log CERR once.
*/
if ((stat & LE_CERR) && le_softc[unit].sc_cerr)
return;
log(LOG_WARNING,
"le%d: error: stat=%b\n", unit,
stat,
"\20\20ERR\17BABL\16CERR\15MISS\14MERR\13RINT\12TINT\11IDON\10INTR\07INEA\06RXON\05TXON\04TDMD\03STOP\02STRT\01INIT");
}
lererror(unit, msg)
int unit;
char *msg;
{
register struct le_softc *le = &le_softc[unit];
register struct lermd *rmd;
int len;
if (!ledebug)
return;
rmd = &le->sc_r2->ler2_rmd[le->sc_rmd];
len = rmd->rmd3;
log(LOG_WARNING,
"le%d: ierror(%s): from %s: buf=%d, len=%d, rmd1=%b\n",
unit, msg,
len > 11 ? ether_sprintf(&le->sc_r2->ler2_rbuf[le->sc_rmd][6]) : "unknown",
le->sc_rmd, len,
rmd->rmd1,
"\20\20OWN\17ERR\16FRAM\15OFLO\14CRC\13RBUF\12STP\11ENP");
}
lexerror(unit)
int unit;
{
register struct le_softc *le = &le_softc[unit];
register struct letmd *tmd;
int len;
if (!ledebug)
return;
tmd = le->sc_r2->ler2_tmd;
len = -tmd->tmd2;
log(LOG_WARNING,
"le%d: oerror: to %s: buf=%d, len=%d, tmd1=%b, tmd3=%b\n",
unit,
len > 5 ? ether_sprintf(&le->sc_r2->ler2_tbuf[0][0]) : "unknown",
0, len,
tmd->tmd1,
"\20\20OWN\17ERR\16RES\15MORE\14ONE\13DEF\12STP\11ENP",
tmd->tmd3,
"\20\20BUFF\17UFLO\16RES\15LCOL\14LCAR\13RTRY");
}
#endif